KR20100117158A - Manufactured method fractionating column device of distiller for fresh water from sea water - Google Patents

Manufactured method fractionating column device of distiller for fresh water from sea water Download PDF

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KR20100117158A
KR20100117158A KR1020090035754A KR20090035754A KR20100117158A KR 20100117158 A KR20100117158 A KR 20100117158A KR 1020090035754 A KR1020090035754 A KR 1020090035754A KR 20090035754 A KR20090035754 A KR 20090035754A KR 20100117158 A KR20100117158 A KR 20100117158A
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diameter
manufacturing
length
column device
evaporator
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KR1020090035754A
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Korean (ko)
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이원송
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이원송
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Priority to KR1020090035754A priority Critical patent/KR20100117158A/en
Priority to PCT/KR2010/002080 priority patent/WO2010123209A2/en
Publication of KR20100117158A publication Critical patent/KR20100117158A/en

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    • CCHEMISTRY; METALLURGY
    • C02TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02FTREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F1/00Treatment of water, waste water, or sewage
    • C02F1/26Treatment of water, waste water, or sewage by extraction
    • C02F1/265Desalination
    • BPERFORMING OPERATIONS; TRANSPORTING
    • B01PHYSICAL OR CHEMICAL PROCESSES OR APPARATUS IN GENERAL
    • B01DSEPARATION
    • B01D3/00Distillation or related exchange processes in which liquids are contacted with gaseous media, e.g. stripping
    • B01D3/14Fractional distillation or use of a fractionation or rectification column
    • CCHEMISTRY; METALLURGY
    • C02TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02FTREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F1/00Treatment of water, waste water, or sewage
    • C02F1/02Treatment of water, waste water, or sewage by heating
    • C02F1/04Treatment of water, waste water, or sewage by heating by distillation or evaporation
    • C02F1/048Purification of waste water by evaporation
    • CCHEMISTRY; METALLURGY
    • C02TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02FTREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F2103/00Nature of the water, waste water, sewage or sludge to be treated
    • C02F2103/08Seawater, e.g. for desalination
    • CCHEMISTRY; METALLURGY
    • C02TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02FTREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F2201/00Apparatus for treatment of water, waste water or sewage
    • C02F2201/002Construction details of the apparatus
    • CCHEMISTRY; METALLURGY
    • C02TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02FTREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F2209/00Controlling or monitoring parameters in water treatment
    • C02F2209/05Conductivity or salinity
    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02ATECHNOLOGIES FOR ADAPTATION TO CLIMATE CHANGE
    • Y02A20/00Water conservation; Efficient water supply; Efficient water use
    • Y02A20/124Water desalination

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  • Chemical & Material Sciences (AREA)
  • Life Sciences & Earth Sciences (AREA)
  • Hydrology & Water Resources (AREA)
  • Engineering & Computer Science (AREA)
  • Environmental & Geological Engineering (AREA)
  • Water Supply & Treatment (AREA)
  • Organic Chemistry (AREA)
  • Chemical Kinetics & Catalysis (AREA)
  • Vaporization, Distillation, Condensation, Sublimation, And Cold Traps (AREA)
  • Heat Treatment Of Water, Waste Water Or Sewage (AREA)

Abstract

PURPOSE: A method for manufacturing rectification column of a distiller for desalting is provided to eliminate 99.99% of salt included in sea water. CONSTITUTION: A manufacturing method of the rectification column apparatus of the evaporator for the seawater desalination comprises next steps: a step of establishing the capacity of the evaporator(10); a step of manufacturing flange deciding the diameter of the rectification column apparatus(20) according to the connection diameter of the evaporation roofing tile condenser(11) and the length; a step of manufacturing hot water collection plate to the rectification column apparatus(22); a step for deciding the number of reflux tubes and welding; a step for making Raschig ring for manufacturing. The diameter and length of the reflux tube is changed according to the sea water desalination capacity.

Description

해수 담수화용 증류기의 정류칼럼장치 제조방법. {Manufactured method fractionating column device of distiller for fresh water from sea water.}Method for manufacturing a rectifier column device for a seawater desalination distiller. {Manufactured method fractionating column device of distiller for fresh water from sea water.}

본 발명은 해수담수화용 증류기의 정류컬럼장치 제조에 관한 것이다. 이 정류칼럼장치는 고온(끓는물)을 포집하는 포집층과 라쉬히링층으로 구성되어있다. 증발기에서 과열에 의한 상승증기를 억제시켜 목적의 증기만 냉각기에서 응축시키는 정류칼럼장치를 개발하게된 것이다.The present invention relates to the production of a rectification column device of the seawater desalination still. The rectifier column device is composed of a collecting layer and a rash healing layer for collecting high temperature (boiling water). It was to develop a rectifier column device that condenses the steam of interest only in the cooler by suppressing the rising steam due to overheating in the evaporator.

종래 해수 담수화 장치로서는 저온증발법, 전기투석법, 역삼투압법 등으로 나눌수 있다. 이러한 해수 담수화법은 고도의 시설비와 고압의 시스템이 요구되는 시설들이다. 낙도(도서)등 해수담수화에는 주로 소용량 시설이 필요한바 지역의 특성상 기존의 육상용 대형의 시스템의 기술을 적용할 수가 없는것이 현 실정이다. 이중 역삼투압법이 이상적이긴하나 1차공정, 2차공정등 70기압정도의 고압시설이 요구된다. 이러한 해수 담수화법으로는 적은 낙도 인구에 사용할 음료수 제조에는 적당치 않는것이다.Conventional seawater desalination apparatuses can be classified into low temperature evaporation, electrodialysis, reverse osmosis, and the like. These seawater desalination methods require high facility costs and high pressure systems. Small desalination facilities such as islands (books) usually require small-capacity facilities, so it is currently impossible to apply the technology of existing large-scale land systems. Although reverse osmosis is ideal, high pressure facilities of around 70 atm, such as primary and secondary processes, are required. Such seawater desalination is not suitable for producing beverages for a small island population.

해수의 담수화에 많은 논문을 찾아 볼수있다. 해수에 포함된 염분을 99.5% 제거할시 음료수로서 적합하다고 하였다. 그러나 본 발명에서는 소형의 증류장치로 서 염분제거율 99.99% 까지 올릴수 없을까? 하는것이 발명자의 목표였다.There are many papers on desalination of seawater. It is said that it is suitable as a drink when 99.5% of salts contained in seawater are removed. However, in the present invention, can the salinity removal rate be increased to 99.99% with a small distillation apparatus? Was the inventor's goal.

해수의 b.p를 측정한결과 100℃, 102℃, 103℃, 104℃, 105℃ 등 이였다. 약 102℃정도의 증기만 응축기로 보넬시 가능한 것이다. 시중에서 판매되는 순수제조장치인 증류기 220V, 3KW, 4리터/시간 용량 1대(도 1)를 구입하였다. 증발기와 냉각기 사이에 직경 160mm, 파이프길이를 150mm로 짜르고 원기둥(column)을 설치하고 라쉬히링을 채우고 해수를 증류하였다. 짠물만 생산되었다. 소형 변압기 1대를 구매하여 다시 200V, 190V, 180V의 전기를 공급 하여도 짠물만 생산되었다. 다시 170V를 공급하고 증류하니 짜지않았다. 그러나 생산량이 2.3리터/시간 으로 수율이 너무나 낮았다. 바로 이방법이 저온증류법인 것이다. 거듭실험하여 정류칼럼장치를 개발하게 된것이다.As a result of measuring b.p of seawater, it was 100 degreeC, 102 degreeC, 103 degreeC, 104 degreeC, and 105 degreeC. Only steam at about 102 ° C can be bonneled into the condenser. A commercially available pure water distillation apparatus, 220V, 3KW, and 4 liters / hour capacity (1) was purchased. Between the evaporator and the cooler, a diameter of 160 mm and a pipe length of 150 mm were cut off, a column was installed, a lashing ring was filled, and seawater was distilled off. Only salty water was produced. Even if one small transformer was purchased and supplied again with 200V, 190V and 180V, only salty water was produced. 170V was supplied again and distilled, and it was not salty. However, yield was too low at 2.3 liters / hour. This is the cold distillation method. After repeated experiments, the rectifier column device was developed.

정류칼럼장치는 열수(hot water) 포집기층과 라쉬히링층으로 구성되며 이렇게 제조한 장치를 순수제조증류기에 결합시키고 해수를 증류한바 순수한 물만 생산되었다. (도1)의 순수제조기 220V, 3KW, 4리터/시간의 증류장치에 이정류칼럼장치를 결합시키고 해수를 증류한바 매우 순수한 물이 3.9리터(3,900g)생산 되었다. 구입한 순수제조장치의 순수제조량 4,000g/hr에 비하여 조금 미달되나 그수율은 97.5%로서 만족하여 특허출원 하기로하였다.The rectifier column device is composed of a hot water collector layer and a lash-healing layer. The device thus manufactured is combined with a pure water production distillation unit and distilled sea water to produce only pure water. The pure water maker 220V, 3KW, 4 liters / hour distillation unit was combined with a distillation column unit and distilled sea water, 3.9 liters (3,900 g) of very pure water was produced. It was slightly lower than the net production amount of 4,000 g / hr of the pure water production apparatus purchased, but the yield was satisfactory as 97.5%.

순수제조 증류기 로서 해수를 증류한바 매우 짠물만 생산되었다. 이것은 해수에 포함되 있는 염(Nacl)분 때문이다. 다시 증류기의 증발부와 냉각기와의 연결 후렌즈에 칼럼을 설치 라쉬히링을 충진하고 증류를 하여도 짠물만 생산되었다. 그원인은 해수에 포함된 염분으로서 증발기에서의 염분의 증기가 냉각기로 올라가 냉각되기 때문인것이다. 이 염분의 증기가 냉각기로 올라가지 못 하도록 즉 억제시키면 되지않겠는가? 염분의 증기를 어떻게 하면 냉각기로 진입시키지 못하게 할수있는가? 이것이 과제 였다.Pure water distillation distilled sea water, only very salty water was produced. This is due to the salt (Nacl) content in seawater. Again, the salt was produced even after distillation by filling the lashing ring after installing the column in the lens after connecting the evaporator of the distillation unit with the cooler. The reason for this is that salts in seawater are the vapors of the salts in the evaporator that rise to the cooler and cool. Wouldn't it be possible to prevent this salt vapor from rising to the cooler? How can you prevent salt vapor from entering the cooler? This was a challenge.

이 과제를 해결하기 위하려 순수제조 증류기 220V, 3KW, 생산 4Kg/hr 1대를 구매 하였다. 증발기와 냉각기를 풀고 증발기에 해수를 적정수위까지 넣고 220V, 3KW 전기를 투입하였다. 해수가 끓을때 기포가 심하고 거품(form)이 해수의 적정수위의 약 60%정도 증가하여 넘쳤다. 그렇다면 증발기와 냉각기 사이에 칼럼을 붙혀야 한다고 생각 하였다. 구매한 증류기의 증발부와 냉각기 사이의 후렌지(flange)는 직경 160mm 였다. 해수의 끓는점(b.p)를 측정한바 100℃ 내지 105℃였다. 따라서 102℃ 이상의 증기의 상승 냉각기로 못올라 가도록하기 위하여 직경 158mm의 파이프에 길이 200mm 자르고 이칼럼 상단, 하단에 후렌지를 만들었다. 이 칼럼내부에 100℃의 액체가 머물수 있는 공간이 필요하였다. 즉 액체를 잡아둘수 있는 포집기를 상상하고 포집기를 만들었다. 또 이포집기 위에 라쉬히링을 충진하고 고열의 증기가 라쉬히링에 붙이쳐 포집기로 떨어지도록 하였다. 도 2의 (20) 포집기 칼럼을 만들어 증류한바 짠물이 생산되지 않았다. 그러나 미세한 압력으로 생산량이 고르지 않은 과제가 발생 하였다. 다시 골몰하였다. 제조된 칼럼내의 포집기의 높이를 조절하므로서 해결할 수가 있었다.To solve this problem, a pure distillation machine 220V, 3KW, and one production 4Kg / hr was purchased. The evaporator and the cooler were released, and the seawater was put in the evaporator to an appropriate level, and 220V and 3KW electricity were supplied. When the seawater boiled, the bubbles were severe and the foam overflowed by about 60% of the seawater's proper level. Then I thought that a column should be attached between the evaporator and the cooler. The flange between the evaporator and the cooler of the purchased distiller was 160 mm in diameter. It was 100 degreeC-105 degreeC when the boiling point (b.p) of seawater was measured. Therefore, in order to prevent it from rising to the rise cooler of steam of 102 ° C. or more, a length of 200 mm was cut in a pipe having a diameter of 158 mm, and a flange was formed at the top and bottom of the column. A space in which the liquid at 100 ° C. can stay was needed in this column. In other words, I imagined a collector that could hold liquid and made a collector. In addition, the Raschhiring was filled on the collector and hot steam was attached to the Raschhiring so that it fell into the collector. (20) Collector column distilled to make a salty water was not produced. However, microscopic pressure caused uneven production. It was driven again. This could be solved by adjusting the height of the collector in the manufactured column.

과제의 해결수단으로 증류를 한바 해수의 염분제거율이 99.99%였다. 지구의 온난화로 도서지방의 식수난이 도래하고 있다. 본 발명은 인구가 적은 도서지방의 식수해결에 적합 하다고 생각된다. 본 발명특허의 정류칼럼장치는 소형뿐만 아니라 중형, 대형의 해수담수화에 응용할 수가 있는것이다. 각종 증류장치에 본 정류장치만 결합시키면 해수담수화 장치가 되는 것이다. 실시예 표 1에서 보듯히 염분제거율 99.99%로서 식수로도 적합한 것이다. 따라서 세계각국에 보급하기 위하여 PCT 국제출원을 계획하고 있다.As a means of solving the problem, the desalination rate of the seawater was 99.99%. Due to global warming, drinking water shortage in the islands is coming. It is thought that the present invention is suitable for drinking water solution of a small island island. The rectifier column device of the present invention is applicable to seawater desalination of medium as well as medium and large. By combining this stop with various distillation units, it becomes a seawater desalination system. Example As shown in Table 1, the desalination rate is 99.99%, which is also suitable for drinking water. Therefore, the PCT international application is planned for distribution to all over the world.

본 발명을 첨부한 도면을 참조하여 상세히 설명하면 다음과 같다. 도 2 는 일반적인 순수제조 장치에 (20) 정류칼럼장치를 포함 조립한 것이다. (10) 해수증발장치의 용량에 따라 칼럼의 직경을 산출하여야 한다. 칼럼 직경과 길이를 산정하여 자재를 택하고 칼럼에 (27)(28) 후렌지를 제작하고 칼럼안에 (22) 열수포집기 프레이트를 만든다. 열수포집프레이트는 도6 에 의하여 (24)구멍(hole) 뚫은다. (도 6은 4리터/시간 용량기준임), 구멍갯수는 용량에 따라 산출하여야 한다. 도 5 포집기의 파이프 (24)환류관의 길이는 해수담수화 용량에 따라 포집량, 환류량을 정하고 (24) 파이프를 잘라 세우고 용접한다. 라쉬히링프레이트 (23)을 만들고 여기에 (23-a) 3mm의 구멍(hole) 무수이 뚫고 (또는 망으로 만들어도 된다) (20-h-1) (20-h-2) (20-h-3) (20-h-4)거리를 산출(실시예 참조)하고 조립한다. 라쉬히링을 제작하고 라쉬히링프레이트에 충진하고 하단 (28), 상단(27) 후렌지를 증발기와 냉 각기에 후렌지를 채운다. 라쉬히링 규격과 량은 해수증발량에 따라 달라야 한다. 정류칼럼장치가 완성된 것이다. 내용이 부족한점은 (실시예)에서 구체적으로 설명하였으니 참조 바랍니다.Hereinafter, the present invention will be described in detail with reference to the accompanying drawings. Figure 2 is assembled to the general pure water production apparatus including the 20 rectification column apparatus. (10) The diameter of the column is to be calculated according to the capacity of the seawater evaporation system. Select the material by calculating the column diameter and length, make (27) and 28 flanges in the column, and make a (22) hydrothermal collector plate in the column. The hot water collecting plate is perforated (24) by FIG. (Figure 6 is based on 4 liters / hour capacity), the number of holes should be calculated according to the capacity. 5, the length of the return pipe of the collector is determined according to the seawater desalination capacity, the amount of reflux and the amount of reflux (24) to cut and weld the pipe. Make a rushing plate (23), and (23-a) a 3 mm hole anhydrous (or you can make a mesh) (20-h-1) (20-h-2) (20-h- 3) Calculate (20-h-4) distance (see Example) and assemble. Make lash healing ring, fill it with lash healing plate, and fill the flange with the evaporator and cooler at the bottom (28) and the top (27). Raschhiring specifications and quantities should depend on seawater evaporation. The rectifier column device is completed. The lack of content is described in detail in (Example).

도 1의 순수제조 증류기 220V, 3KW, 제조량 4,000g/hr 1대를 구매하였다. 증발장치의 후렌지의 직경은 160mm 였다. 스텐레스스틸 2t, 직경 160mm 파이프를 길이 200mm로 자르고 상,하 (27) (28) 후렌지를 만들었다. (22) 열수포집기 프레이트는 스텐레스스틸 두께 2t, 직경 158mm로 만들고 (24) 구멍은 직경 10mm로 40개를 뚫으고 직경 10mm, 1t 파이프를 길이 20mm로 자른후 40개를 용접하였다. (24) 화류관의 길이가 20mm일때 열수포집량은 260g, 30mm일때 390g, 40mm일때 520g이 였다. 동질의 재질로 (23) 라쉬히링 프레이트를 직경 158mm로 원으로 자르고 (23-a) 3mm 구멍을 무수히 뚫으고 조립하였다. (20-h-1) 높이 70mm로 , (20-h-2) 높이 20mm로, (20-h-3)는 높이30mm로, (20-h-4)는높이 80mm로 설정 조립 하였다. (22) 열수포집기 프레이트와 (23) 라쉬히링 프레이트는 엄격히 수평을 유지하게 조립하여야 한다. (24)열수환류관에서 열수(100℃ hot water)가 고르게 환류되면서 증발기의 과열증기가 상승하면서 고루게 접촉하여 염분함유 고온증기 상승을 억제하여야 하기 때문이다. (28) 후렌지를 조립하였다. (21) 라쉬히링은 스텐레스스틸 0.5t, 직경 22mm, 길이 22mm로 160개를 만들고 충진한다. (27) 후렌지와 응축기를 연결 조립 하였다. 도 2와 같이 (10) (20) (11) 이 조립된 것이다.Purifier distiller 220V, 3KW of Figure 1, 4,000g / hr purchased one was purchased. The diameter of the flange of the evaporator was 160 mm. 2 tons of stainless steel, 160 mm in diameter pipes were cut to 200 mm in length and made up and down (27) and (28) flanges. (22) The hot water collector plate was made of stainless steel 2t thick and 158mm in diameter. (24) Holes were drilled 40 with 10mm in diameter, and 10mm, 1t pipes were cut to 20mm in length and 40 were welded. (24) When the length of the fire pipe was 20mm, the amount of hot water collection was 260g, 390g at 30mm, and 520g at 40mm. Using a homogeneous material, the (23) Raschhiring plate was cut to a diameter of 158 mm in a circle (23-a), and 3 mm holes were drilled and assembled. (20-h-1) height 70mm, (20-h-2) height 20mm, (20-h-3) height 30mm, and (20-h-4) height 80mm. (22) The hydrothermal collector plate and (23) the rachhiring plate shall be assembled to be strictly level. (24) This is because hot water (100 ℃ hot water) is uniformly refluxed in the hot water reflux pipe and the hot steam of the salinity must be kept in contact with the hot water vapor of the evaporator to rise evenly. (28) Hurenji was assembled. (21) Rashiring makes and fills 160 pieces of stainless steel 0.5t, 22mm diameter and 22mm length. 27. Assembled Hurenji and condenser. 2, 10, 20, and 11 are assembled.

해수(sea water)는 황해에서 취한 해수로 증류 하였다. (14)에 냉각수를 공 급하고 (15)에서 배수시킨다. (17)에 해수를 공급하고 (19) 220V, 3KW의 전기를 공급한다. (16)에 호수를 연결하고 생산량을 받았다. 전기공급 20분 후 생산이 정상화 되고 시간당 3,9리터(3,900g)씩 생산되었다. 기성증류기의 4리터/시간 용량과 비교할때 수율은 97.5%가 되었다. 생산된물(fresh water)과 원해수(sea water)의 분석치는 표1에 예시하였다.Sea water was distilled into seawater taken from the Yellow Sea. The coolant is supplied to (14) and drained from (15). Supply (17) seawater and (19) supply 220V, 3KW of electricity. Linked the lake to 16 and received the yield. After 20 minutes of electricity supply, production normalized and produced 3,9 liters (3,900 g) per hour. The yield was 97.5% compared to the 4 liter / hour capacity of the ready-made distillers. Analytical values of fresh water and sea water are shown in Table 1.

[표 1] Impurity ( ppm)Table 1 Impurity (ppm)

Figure 112009501633023-PAT00001
Figure 112009501633023-PAT00001

본 발명은 산업에 적용가능한 것이다. 해수 담수화기기의 증발기와 응축기사이에 본 정류칼럼장치만 설치하면 해수 담수화용 증류기의 정류칼럼장치가 되는 것이다.The present invention is applicable to industry. If only the rectification column device is installed between the evaporator and condenser of the seawater desalination device, it becomes the rectifier column device of the seawater desalination still.

도1은 일반적인 순수제조 증류기 투시도.1 is a perspective view of a typical pure manufactory still.

도2는도1의 증류기에 정류칼럼장치를 설치한 해수 담수화용 증류기의 정류칼럼장치 투시도.Figure 2 is a perspective view of the rectifier column device of the distillation for seawater desalination in which the rectifier column device is installed in the still of FIG.

도3은 정류칼럼장치 투시도.Figure 3 is a perspective view of the rectifying column device.

도4는 라쉬히링 프레이트 평면도.Fig. 4 is a plan view of the lachhiring plate.

도5는 열수포집기 투시도.5 is a perspective view of a hydrothermal collector;

도6은 열수포집기프레이트의 평면도이다.6 is a plan view of the hydrothermal collector plate.

<도면의 주요부분에 대한 부호의 설명>Description of the Related Art

(10) 해수증발기, (11) 냉각기, (12) 수위조절기(10) seawater evaporators, (11) chillers, (12) water level regulators

(13)전기공급램프, (14)냉각수공급관, (15) 냉각수출구(13) electrical supply lamps, (14) cooling water supply lines, (15) cooling outlets

(16) 증류액출구, (17) 해수공급관, (18) 드레인콕크,(16) distillate outlet, (17) seawater supply pipe, (18) drain cock,

(19) 전기코일, (20)정류칼럼장치, (20-h-1)증발기와(19) electric coils, (20) rectifier columns, (20-h-1) evaporators and

열수포집기와의 높이, (20-h-2) 열수포집기의 관(pipe)길이,Height of the hydrothermal collector, (20-h-2) pipe length of the hydrothermal collector,

(20-h-3)열수포집기의 상단과 라쉬히링프레이트와의 높이,(20-h-3) the height of the top of the hydrothermal collector and the lash healing plate,

(20-h-4)라쉬히링 충진 높이, (21) 라쉬히링, (22)열수포집기의(20-h-4) Raschhiring filling height, (21) Raschhiring, (22) of hydrothermal collector

프레이트, (23)라쉬히링프레이트, (24) 열수포집기의Plate, (23) lash-healing plate, (24) of hydrothermal collector

수위조절관 및 환류관(reflux pipe), (25)증발기에서 해수증기가 올라가는Level control pipes and reflux pipes, (25)

상태 표시, (26)열수포집기에서 100℃열수가 증발기Status display, (26) 100 ℃ hot water evaporator from hot water collector

로 환류하는 상태표시, (27)정류칼럼상단과 냉각기 사이 연결후(27) After connecting between the top of the rectifying column and the cooler

렌지, (28) 정류칼럼장치 하단과 증발기와의 연Stove, (28) connection between bottom of rectifier column and evaporator

결 후렌지.Texture Hurenji.

Claims (3)

도 2는 도 1에 (20)정류칼럼장치 (Fractionating column device)를 포함 설치한 해수담수화용 증류기의 투시도 이다. (10)증발기의 용량을 설정하고,(10) 증발기와 (11) 응축기 연결 직경에 따라 정류칼럼장치의 직경과 길이를 정하고 (27) (28)후렌지를 제작한다. (20) 칼럼에 (22) 열수포집프레이트를 제작한다. (24) 환류관의 수를 정하고 용접한다. (24) 환류관의 직경과 길이는 해수담수화 용량에 따라 달라져야 한다. (23) 라쉬히링프레이트를 제작하고 (20-h-1) (20-h-2) (20-h-3) (20-h-4)높이를 정하고 조립한후 라쉬히링을 제작 충진한후 조립하여 제조하는 것을 특징으로 하는 해수담수화용 증류기의 정류칼럼장치 제조방법.FIG. 2 is a perspective view of a seawater desalination still equipped with a rectifying column device (20) in FIG. 1. (10) Set the capacity of the evaporator, (10) determine the diameter and length of the rectifier column device according to the connection diameter of the evaporator and (11) the condenser, and (27) (28) produce the flange. (22) A hot water collecting plate was prepared in the column (20). (24) Determine the number of reflux tubes and weld them. (24) The diameter and length of the reflux pipes shall depend on the seawater desalination capacity. (23) After manufacturing and filling the lash-healing plate (20-h-1) (20-h-2) (20-h-3) (20-h-4) height Method for producing a rectifying column device for a seawater desalination distillation, characterized in that the assembly. 청구 1항에서 (22)열수포집기의 (24) 환류관은 스텐레스스틸 직경 10mm내지 50mm, 길이 10mm내지 50mm로 제작, 용접하는것을 특징으로 하는 해수 담수화용 증류기의 정류칼럼장치 제조방법.Claim (1) (22) (24) Reflux tube of the hydrothermal collector is made of stainless steel diameter 10mm to 50mm, length 10mm to 50mm, manufacturing and welding rectifier column apparatus for a seawater desalination distillation. 청구 1항에서 라쉬히링은 수텐레스스틸 또는 자기(도자기) 재질로 하고 직경 20mm 내지 50mm, 길이 20mm내지 50mm로 제작하는 것을 특징으로 하는 해수 담수화용 증류기의 정류칼럼장치 제조방법.Raschhiring in claim 1 is made of sustenless steel or porcelain (porcelain) material, the diameter of 20mm to 50mm, length of 20mm to 50mm, characterized in that the manufacturing method of the rectifier column device for seawater desalination distillation.
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